Living organisms use ions and small molecules as information carriers to communicate with
the external environment at ultralow power consumption. Inspired by biological systems …

The emergent nanofluidic memristor provides a promising way of emulating neuromorphic
functions in the brain. The conical-shaped nanopore showed promising features for a …

Iontronics that are capable of mimicking the functionality of biological systems within an
artificial fluidic network have long been pursued for biomedical applications and ion-based …

The progress of brain cognition and learning mechanisms has provided new inspiration for
the next generation of artificial intelligence (AI) and provided the biological basis for the …

Fluidic iontronics is emerging as a distinctive platform for implementing neuromorphic
circuits, characterised by its reliance on the same aqueous medium and ionic signal carriers …

Brain neural networks intricately integrate excitatory and inhibitory synaptic potentials to
modulate the generation or suppression of action potentials, laying the foundation for …

Solid-state nanopores are a key platform for single-molecule detection and analysis that
allow engineering of their properties by controlling size, shape, and chemical …

In pursuit of neuromorphic (brain-inspired) devices, memristors (memory-resistors) have
emerged as promising candidates for emulating neuronal circuitry. Here we mathematically …

Memristors that mimic brain functions are crucial for energy-efficient neuromorphic devices.
Ion channels that emulate biological synapses are still in the early stages of development …

We use all-atom molecular dynamics simulations to investigate ionic conduction in a short,
charged, single-wall carbon nanotube. They reveal ionic Coulomb blockade (ICB) …